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COMPARATIVE STUDY OF ENERGY UTILISATION
                                     BETWEEN
RURAL VERNACULAR ARCHITECTURE AND URBAN LOW-RISE STRUCTURE
                      IN JHARKHAND

   By
   Ar. Janmejoy Gupta
   Asstt. Prof.
   Dr. Manjari Chakraborty
   Professor and Head, DEPT. OF ARCHITECTURE


   At

   National Conference on “Sustainable Development and Global Competitiveness”
   Environmental Science and Engineering Group
   Birla Institute of Technology, Mesra, Ranchi, Jharkhand
   4th and 5th Dec. 2012
BACKGROUND
The building industry contributes   30% of total carbon dioxide
 emission of the country.
Proper sustainability in the built environment to ensure
 minimisation of Green House Gases into the environment.
This can be achieved by low carbon buildings.
WHAT ARE SUSTAINABLE ASPECTS OF HABITAT DESIGN ?


 HOW TO ENSURE PROPER SUSTAINABILITY IN BUILT ENVIRONMENT – ROLE OF MUD HOUSES IN THIS ASPECT.



EMBODIED ENERGY CALCULATIONS FOR SIMILAR AREAS OF URBAN & RURAL HOUSES.


SUMMARY OF ENERGY SAVINGS IN MUD HOUSES


HOW TO ENSURE PROPER SUSTAINABILITY IN BUILT ENVIRONMENT – ROLE OF MUD HOUSES IN THIS ASPECT.




THE UNIQUENESS OF RURAL AREAS AND THEIR ABILITY TO RESPOND TO GLOBAL PROBLEMS MUST BE
AFFIRMED.


CONCLUSIONS
Defining Sustainability ……
      “…development that meets the needs of the
       present without compromising the ability of
       future generations to meet their own
       needs.” - The Bruntland Commission (1987)
      Sustainability    can be defined as the
         continued ability of a society, an ecosystem,
         or any such interactive system to function
         without exhausting       key resources and
         without     adversely       effecting     the
         environment.

SUSTAINABILITY & GLOBAL COMPETITIVENESS
A sustainable habitat is one that is
 economically viable, environmentally benign, and
socially acceptable

SUSTAINABLE ASPECTS OF HABITAT DESIGN
RURAL ARCHITECTURE IN
JHARKHAND
CONSTRUCTION
  mud mixed with cow dung, chopped straw, and gravel or stones to
   make the raw material for the walls.
  Wattle and Daub construction style.




                                                           Mud wall with wooden-posts
                                                           of typical hut


Source:Uthaipattrakul, Dh. (2004). Mud-house construction technique. Building the house
with mud. Suan-ngarn-mena Press, Bangkok, 27-50
CONSTRUCTION




                             Special mud blocks left with vegetable waste
                               matter to mature for wall construction.

                              Source:      Gautam     Avinash(2008),
                              Climate      Responsive     Vernacular
       Source: Dhar (1992)    Architecture:     Jharkhand,     India,
                              Masters Of Science Thesis, Department
                              of    Architecture,    Kansas     State
                              University, Manhattan,Kansas.
URBAN RESIDENCE STUDIED
               TYPICAL LOW INCOME GROUP
                HOUSE STUDIED

               MADE OF CONVENTIONAL,
                COMMONLY USED BUILDING
                MATERIALS.

               TOTAL MATERIALS USED
                CALCULATED USING REGRESSION
                EQUATIONS.
EMBODIED ENERGY

 “Embodied    energy is the energy consumed
  by all of the processes associated with the
  production of a building, from the acquisition
  of natural resources to product delivery.”
 Embodied energy takes into account the energy
  used to create the building materials for the
  construction and maintenance of a house.



Studies concerning low-energy housing show that embodied energy can
account for as much as 40–60% of total energy use    (Thormark, 2006)
EMBODIED ENERGY - FACTORS

Electricity use.
Energy losses in electricity production & transmission.
Fuel extraction, processing and delivery.
Process heat.
Transport.
Capital equipment energy use.
                                          ←
Energy used to provide the building materials
Energy used for replacement building materials during
 maintenance ←
EQUATIONS FOR MATERIAL REQUIREMENTS IN RESIDENTIAL BUILDINGS (A is the floor area in
sq.meters)-Regression equations for estimating quantity of materials.

     MATERIALS                SINGLE STOREY             DOUBLE STOREY
     BRICKS –(1000 nos)       2.26 A + 66.8             2.15 A + 63
     CEMENT (TON)             0.153 A + 0.57            0.145 A + 0.54
     STEEL (KG)               21.3 A - 314              21.97 A – 305
     COARSE AGGREGRATE        0.176 A – 0.21 + 0.145    0.178 A – 0.21 + 0.075
     (CUBIC METER) (ALL       A + 1.5                   A + 0.78
     SIZES)
     BRICK AGGREGATE          0.113 A – 0.83            0.056 A – 0.42
     (CUBIC METER)
     TIMBER (METER CUBE)      0.019 A + 0.23            0.019 A + 0.23
     LIME (100 KG)            0.145 A – 0.35            0.073 A – 0.17
     SURKHI                   0.052 A – 0.37            0.026 A – 0.18
     BITUMEN (KG)             1.836 A – 9.0             0.918 A – 4.0
     GLASS (SQ. METERS)       0.064 A – 0.73            0.064 A – 0.73
     PRIMER (1)               0.068 A                   0.068 A
     PAINT (1)                0.108 A + 0.27            0.108 A + 0.27

SOURCE: CSIR- CENTRAL BUILDING RESEARCH INSTITUTE (CBRI) PUBLISHED EQUATIONS FOR
ESTIMATION OF THE MAJOR BUILDING MATERIAL REQUIREMENTS FOR SINGLE STOREY & DOUBLE
STOREY LOAD BEARING WALL RESIDENTIAL BUILDINGS. VALID FOR FLOOR AREA FROM 30 SQ
METERS TO 300 SQ METERS.
COMPUTATION OF EMBODIED ENERGY FOR
 SINGLE STOREY HOUSE
 DESCRIPTION OF ITEMS/MATERIALS           EMBODIED ENERGY
 USED IN THE HOUSE                        (MEGA JOULES)
 TRADITIONAL HOUSE USING CONVENTIONAL     82,178
 MATERIALS SUCH AS BRICK MASONARY IN
 FOUNDATION & IN WALLS & RCC IN ROOF.
 WALL THICKNESS EQUALS 23 CMS.
 TOTAL FLOOR AREA = 40 SQUARE METERS

THE QUANTITY OF MATERIALS REQUIRED FOR THE
INSTALLATION OF ELECTRICAL, MECHANICAL, PLUMBING,
SEWAGE & DRAINAGE SYSTEMS IS NOT INCLUDED.
 DESCRIPTION OF ITEMS/MATERIALS USED EMBODIED ENERGY
 IN THE HOUSE                        (MEGA JOULES)

 MUD , STRAW, COW DUNG, GRAVEL, CLAY       20,000
 TILES/THATCH
Mud is an easy raw material to obtain. It is extracted from the
very site that the house is constructed, so saving on transport is
one of the major benefits.
CALCULATIONS
Embodied Energy of Mud per kg = 0.7 MJ/Kg. E.E Of Clay Tiles = 3
 MJ/kg.
Total mud used in constructing 8 meters X 5 meters mud house = 10
 cubic meter volume of mud.
Specific Density of mud = 1700 kg/meter cube. Thus, Mass = 17,000
 kg. Total Embodied Energy= 20,000 Mega Joules.
WHY MUD HOUSING ?
The  mud – house uses minimal energy, is comfortable
 year round. 
The building is massive construction technique, mainly
 because of the temperature extremes and its unique
 earth – sheltered design.
passive air – ventilation systems supplies cool air to the
 house if so designed.
Moreover, it is easily to build thru community
 participation,
without constructor/contractor payment bills.
LESS ENVIRONMENTAL IMPACT
 To save natural resources.
 Using neither cement nor rock.
 Using just a little wood.
 To save building materials.
 Main materials are soil and water, mixed to be mud, if the mud
   is too sticky, one can add up with paddy husk or rice straw or
   local fibre weed or bamboo.


 ENERGY SAVINGS…
ENERGY SAVINGS
Requiring only a little stabilizer, the embodied energy in a meter
  cube of mud can be from 5 to 15 times less than 1 m³ of fired
  bricks.

The pollution emission : 2.4 to 7.8 times less than fired bricks.


Produced locally, with a natural resource and semi-skilled
  labour, almost without transport, it will be definitely cost effective.
30 % of the world population lives in earthen dwellings.


25 % of the world population does not have access to decent housing.


 STATISTICS     FROM THE HERITAGE LISTS OF UNESCO SHOW
  THAT:

15 % of the “world cultural heritage” is built with earth.
25 % of the “world heritage in danger” is built with earth.
14 % of the“100 most endangered world heritage” is built with earth.
India – Cost effective
house




Saudi Arabia – Exhibition
Centre
India – Development
Centre




Mali – French Cultural
Centre
Workshop at the Auroville
Earth Institute




Dhyanalingam temple
Near Coimbatore,22 m
diameter




 Domes of the Visitor’s
Centre at Auroville1992
(Hassan Fathy Award for
Architecture for the poor)
(Auroville)

 House at AVBC/Earth Unit




  Training Centre of AV-BC




Mirramukhi School
DISADVANTAGES
There are disadvantages, which normally are:

1.variations in the soil quality and hence the block quality,

2.shrinkage cracks, less longevity, more maintenance.

3.lower strength than high quality fired bricks or concrete, 

4.Not able to produce of the blocks on site, etc.
Different dimensions
of “global competitiveness”
 To cope with globalisation, the   in the rural areas – must aim for four objectives:
1. Areas must position themselves in the spheres opened up by
 globalisation.
2. Exchanges and forms of solidarity and transfer must be developed
 between areas.
3. A dialogue must be established between socio-economic actors
 and between institutional levels.
4. The uniqueness of rural areas and their ability to respond to
 global problems must be affirmed.
From global to local level: affirming the
uniqueness and ability of the rural world
to fi nd answers to global problems.

It is in this context that role of Mud Architecture and its properly
  developed form which can be replicated all over Jharkhand in its rural
  areas to increase general living standards & Thermal Comfort (and
  protection from extreme climatic conditions).

National   Institute of Rural Development (NIRD) has developed
  modular adobe houses which can be easily replicated for 16 different
  climatic regions in India. There is however, none for Jharkhand Area.
CONCLUSIONS
There is a huge potential in saving energy about 25%-30% in single &
  double storey houses in India by using innovative materials and
  techniques for the construction.


Since half a century, research and development has proved the potential
  of earthen techniques. Earth can be used as a quality and modern
  building material almost everywhere in the world.

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Comparative study of energy utilisation in rural & urban dwellings case study - jharkhand

  • 1. COMPARATIVE STUDY OF ENERGY UTILISATION BETWEEN RURAL VERNACULAR ARCHITECTURE AND URBAN LOW-RISE STRUCTURE IN JHARKHAND By Ar. Janmejoy Gupta Asstt. Prof. Dr. Manjari Chakraborty Professor and Head, DEPT. OF ARCHITECTURE At National Conference on “Sustainable Development and Global Competitiveness” Environmental Science and Engineering Group Birla Institute of Technology, Mesra, Ranchi, Jharkhand 4th and 5th Dec. 2012
  • 2. BACKGROUND The building industry contributes 30% of total carbon dioxide emission of the country. Proper sustainability in the built environment to ensure minimisation of Green House Gases into the environment. This can be achieved by low carbon buildings.
  • 3. WHAT ARE SUSTAINABLE ASPECTS OF HABITAT DESIGN ? HOW TO ENSURE PROPER SUSTAINABILITY IN BUILT ENVIRONMENT – ROLE OF MUD HOUSES IN THIS ASPECT. EMBODIED ENERGY CALCULATIONS FOR SIMILAR AREAS OF URBAN & RURAL HOUSES. SUMMARY OF ENERGY SAVINGS IN MUD HOUSES HOW TO ENSURE PROPER SUSTAINABILITY IN BUILT ENVIRONMENT – ROLE OF MUD HOUSES IN THIS ASPECT. THE UNIQUENESS OF RURAL AREAS AND THEIR ABILITY TO RESPOND TO GLOBAL PROBLEMS MUST BE AFFIRMED. CONCLUSIONS
  • 4. Defining Sustainability …… “…development that meets the needs of the present without compromising the ability of future generations to meet their own needs.” - The Bruntland Commission (1987) Sustainability can be defined as the continued ability of a society, an ecosystem, or any such interactive system to function without exhausting key resources and without adversely effecting the environment. SUSTAINABILITY & GLOBAL COMPETITIVENESS
  • 5. A sustainable habitat is one that is economically viable, environmentally benign, and socially acceptable SUSTAINABLE ASPECTS OF HABITAT DESIGN
  • 7. CONSTRUCTION mud mixed with cow dung, chopped straw, and gravel or stones to make the raw material for the walls. Wattle and Daub construction style. Mud wall with wooden-posts of typical hut Source:Uthaipattrakul, Dh. (2004). Mud-house construction technique. Building the house with mud. Suan-ngarn-mena Press, Bangkok, 27-50
  • 8. CONSTRUCTION Special mud blocks left with vegetable waste matter to mature for wall construction. Source: Gautam Avinash(2008), Climate Responsive Vernacular Source: Dhar (1992) Architecture: Jharkhand, India, Masters Of Science Thesis, Department of Architecture, Kansas State University, Manhattan,Kansas.
  • 9. URBAN RESIDENCE STUDIED  TYPICAL LOW INCOME GROUP HOUSE STUDIED  MADE OF CONVENTIONAL, COMMONLY USED BUILDING MATERIALS.  TOTAL MATERIALS USED CALCULATED USING REGRESSION EQUATIONS.
  • 10. EMBODIED ENERGY  “Embodied energy is the energy consumed by all of the processes associated with the production of a building, from the acquisition of natural resources to product delivery.”  Embodied energy takes into account the energy used to create the building materials for the construction and maintenance of a house. Studies concerning low-energy housing show that embodied energy can account for as much as 40–60% of total energy use (Thormark, 2006)
  • 11. EMBODIED ENERGY - FACTORS Electricity use. Energy losses in electricity production & transmission. Fuel extraction, processing and delivery. Process heat. Transport. Capital equipment energy use. ← Energy used to provide the building materials Energy used for replacement building materials during maintenance ←
  • 12. EQUATIONS FOR MATERIAL REQUIREMENTS IN RESIDENTIAL BUILDINGS (A is the floor area in sq.meters)-Regression equations for estimating quantity of materials. MATERIALS SINGLE STOREY DOUBLE STOREY BRICKS –(1000 nos) 2.26 A + 66.8 2.15 A + 63 CEMENT (TON) 0.153 A + 0.57 0.145 A + 0.54 STEEL (KG) 21.3 A - 314 21.97 A – 305 COARSE AGGREGRATE 0.176 A – 0.21 + 0.145 0.178 A – 0.21 + 0.075 (CUBIC METER) (ALL A + 1.5 A + 0.78 SIZES) BRICK AGGREGATE 0.113 A – 0.83 0.056 A – 0.42 (CUBIC METER) TIMBER (METER CUBE) 0.019 A + 0.23 0.019 A + 0.23 LIME (100 KG) 0.145 A – 0.35 0.073 A – 0.17 SURKHI 0.052 A – 0.37 0.026 A – 0.18 BITUMEN (KG) 1.836 A – 9.0 0.918 A – 4.0 GLASS (SQ. METERS) 0.064 A – 0.73 0.064 A – 0.73 PRIMER (1) 0.068 A 0.068 A PAINT (1) 0.108 A + 0.27 0.108 A + 0.27 SOURCE: CSIR- CENTRAL BUILDING RESEARCH INSTITUTE (CBRI) PUBLISHED EQUATIONS FOR ESTIMATION OF THE MAJOR BUILDING MATERIAL REQUIREMENTS FOR SINGLE STOREY & DOUBLE STOREY LOAD BEARING WALL RESIDENTIAL BUILDINGS. VALID FOR FLOOR AREA FROM 30 SQ METERS TO 300 SQ METERS.
  • 13. COMPUTATION OF EMBODIED ENERGY FOR SINGLE STOREY HOUSE DESCRIPTION OF ITEMS/MATERIALS EMBODIED ENERGY USED IN THE HOUSE (MEGA JOULES) TRADITIONAL HOUSE USING CONVENTIONAL 82,178 MATERIALS SUCH AS BRICK MASONARY IN FOUNDATION & IN WALLS & RCC IN ROOF. WALL THICKNESS EQUALS 23 CMS. TOTAL FLOOR AREA = 40 SQUARE METERS THE QUANTITY OF MATERIALS REQUIRED FOR THE INSTALLATION OF ELECTRICAL, MECHANICAL, PLUMBING, SEWAGE & DRAINAGE SYSTEMS IS NOT INCLUDED. DESCRIPTION OF ITEMS/MATERIALS USED EMBODIED ENERGY IN THE HOUSE (MEGA JOULES) MUD , STRAW, COW DUNG, GRAVEL, CLAY 20,000 TILES/THATCH Mud is an easy raw material to obtain. It is extracted from the very site that the house is constructed, so saving on transport is one of the major benefits.
  • 14. CALCULATIONS Embodied Energy of Mud per kg = 0.7 MJ/Kg. E.E Of Clay Tiles = 3 MJ/kg. Total mud used in constructing 8 meters X 5 meters mud house = 10 cubic meter volume of mud. Specific Density of mud = 1700 kg/meter cube. Thus, Mass = 17,000 kg. Total Embodied Energy= 20,000 Mega Joules.
  • 15. WHY MUD HOUSING ? The mud – house uses minimal energy, is comfortable year round.  The building is massive construction technique, mainly because of the temperature extremes and its unique earth – sheltered design. passive air – ventilation systems supplies cool air to the house if so designed. Moreover, it is easily to build thru community participation, without constructor/contractor payment bills.
  • 16. LESS ENVIRONMENTAL IMPACT To save natural resources. Using neither cement nor rock. Using just a little wood. To save building materials. Main materials are soil and water, mixed to be mud, if the mud is too sticky, one can add up with paddy husk or rice straw or local fibre weed or bamboo. ENERGY SAVINGS…
  • 17. ENERGY SAVINGS Requiring only a little stabilizer, the embodied energy in a meter cube of mud can be from 5 to 15 times less than 1 m³ of fired bricks. The pollution emission : 2.4 to 7.8 times less than fired bricks. Produced locally, with a natural resource and semi-skilled labour, almost without transport, it will be definitely cost effective.
  • 18. 30 % of the world population lives in earthen dwellings. 25 % of the world population does not have access to decent housing.  STATISTICS FROM THE HERITAGE LISTS OF UNESCO SHOW THAT: 15 % of the “world cultural heritage” is built with earth. 25 % of the “world heritage in danger” is built with earth. 14 % of the“100 most endangered world heritage” is built with earth.
  • 19. India – Cost effective house Saudi Arabia – Exhibition Centre
  • 20. India – Development Centre Mali – French Cultural Centre
  • 21. Workshop at the Auroville Earth Institute Dhyanalingam temple Near Coimbatore,22 m diameter  Domes of the Visitor’s Centre at Auroville1992 (Hassan Fathy Award for Architecture for the poor)
  • 22. (Auroville) House at AVBC/Earth Unit Training Centre of AV-BC Mirramukhi School
  • 23. DISADVANTAGES There are disadvantages, which normally are: 1.variations in the soil quality and hence the block quality, 2.shrinkage cracks, less longevity, more maintenance. 3.lower strength than high quality fired bricks or concrete,  4.Not able to produce of the blocks on site, etc.
  • 24. Different dimensions of “global competitiveness”  To cope with globalisation, the in the rural areas – must aim for four objectives: 1. Areas must position themselves in the spheres opened up by globalisation. 2. Exchanges and forms of solidarity and transfer must be developed between areas. 3. A dialogue must be established between socio-economic actors and between institutional levels. 4. The uniqueness of rural areas and their ability to respond to global problems must be affirmed.
  • 25. From global to local level: affirming the uniqueness and ability of the rural world to fi nd answers to global problems. It is in this context that role of Mud Architecture and its properly developed form which can be replicated all over Jharkhand in its rural areas to increase general living standards & Thermal Comfort (and protection from extreme climatic conditions). National Institute of Rural Development (NIRD) has developed modular adobe houses which can be easily replicated for 16 different climatic regions in India. There is however, none for Jharkhand Area.
  • 26. CONCLUSIONS There is a huge potential in saving energy about 25%-30% in single & double storey houses in India by using innovative materials and techniques for the construction. Since half a century, research and development has proved the potential of earthen techniques. Earth can be used as a quality and modern building material almost everywhere in the world.